Abstract: The invention relates to a method for producing large stainless steel meshes on flatbed knitting machines, comprising the steps of providing stainless steel wire and knitting a stainless steel mesh, characterized in that one stainless steel mesh each is knitted on the front and the rear needle bed of the flatbed knitting machine at the same time, and these two stainless steel meshes are linked to each other on one side by connecting stitches.

Abstract: An integrated circuit is provided that comprise a receive unit to be tested for receiving an input signal and storing the input signal at a predetermined point of time. Additionally, it comprises a processor for applying an error correction to the received input signal, for comparing the error corrected signal with an expectation value and for outputting an error message when the filtered input signal does not correspond to the expectation value. A power source supplies the receive unit to be tested with an adjustable voltage and/or and adjustable current. An adjustment unit varies the predetermined point in time and the adjustable voltage respectively the adjustable current.

Abstract: An interconnect including an input couplable to a source, and an encoder coupled to the input. The encoder is configured to: group information that is received from the source via a same channel; size the grouped information to a common width; and apply protection to the sized grouped information.

Abstract: The invention relates to a method for producing large stainless steel meshes on flatbed knitting machines, comprising the steps of providing stainless steel wire and knitting a stainless steel mesh, characterized in that one stainless steel mesh each is knitted on the front and the rear needle bed of the flatbed knitting machine at the same time, and these two stainless steel meshes are linked to each other on one side by connecting stitches.

Abstract: The present invention relates to a method for producing a non-rectangular noble metal net (5) on flat bed knitting machines, comprising the steps of providing noble metal wire or noble metal alloy wire providing combustible yarn knitting a net (5) using noble metal wire or noble metal alloy wire for the reaction zone (7), wherein combustible yam is used for the offcut area (9), which is singed off or otherwise removed after the knitting process.

Abstract: An integrated circuit is provided that comprise a receive unit to be tested for receiving an input signal and storing the input signal at a predetermined point of time. Additionally, it comprises a processor for applying an error correction to the received input signal, for comparing the error corrected signal with an expectation value and for outputting an error message when the filtered input signal does not correspond to the expectation value. A power source supplies the receive unit to be tested with an adjustable voltage and/or and adjustable current. An adjustment unit varies the predetermined point in time and the adjustable voltage respectively the adjustable current.

Abstract: In various embodiments, a method for processing a Single-Edge Nibble Transmission Signal is provided. The method includes determining of at least one drop in a signal level of the time-variable Single-Edge Nibble Transmission Signal and at least one next rise in the signal level after the drop in the signal level, determining a time interval between the drop and the next rise in the signal level, and determining a quality of the Single-Edge Nibble Transmission Signal by using the time interval.

Abstract: Catalyst gauze (1) for the reduction of the amount of N2O in an ammonia oxidation process, containing a first layer (2) of woven or knitted first wire material (4), whereby said first wire material (4) is made from Pd or a Pd-rich alloy, whereby said first layer (2) contains a reinforcement in the form of a second wire material (5) which is woven or knitted among the first wire material (4) and which has a different composition than the first wire material (5).

Abstract: In various embodiments, a method for processing a Single-Edge Nibble Transmission Signal is provided. The method includes determining of at least one drop in a signal level of the time-variable Single-Edge Nibble Transmission Signal and at least one next rise in the signal level after the drop in the signal level, determining a time interval between the drop and the next rise in the signal level, and determining a quality of the Single-Edge Nibble Transmission Signal by using the time interval.

Abstract: Catalyst gauze (1) for the reduction of the amount of N2O in an ammonia oxidation process, containing a first layer (2) of woven or knitted first wire material (4), whereby said first wire material (4) is made from Pd or a Pd-rich alloy, whereby said first layer (2) contains a reinforcement in the form of a second wire material (5) which is woven or knitted among the first wire material (4) and which has a different composition than the first wire material (5).

Abstract: Embodiments relate to systems and methods for reducing jitter caused by frequency modulation of a clock signal including modulating the frequency of the clock signal based on a predetermined modulation signal m(t), and compensating an accumulated jitter J(t) caused by the frequency modulation of the clock signal such that an absolute value of the accumulated jitter J(t) never exceeds a predetermined jitter limit Jlim.

Abstract: Embodiments related to comparing of a supply voltage are described and depicted.

Abstract: Embodiments relate to systems and methods for reducing jitter caused by frequency modulation of a clock signal including modulating the frequency of the clock signal based on a predetermined modulation signal m(t), and compensating an accumulated jitter J(t) caused by the frequency modulation of the clock signal such that an absolute value of the accumulated jitter J(t) never exceeds a predetermined jitter limit Jlim.

Abstract: Some embodiments disclosed herein relate to a method. In the method, a duration of a first synchronization pulse is measured. A fixed, predetermined number of ticks are equally spaced at a first time interval over the first sync pulse, regardless of the duration of the first synchronization pulse. A duration of a first data pulse is then measured by periodically incrementing a tick count value at the first time interval during the entire duration of the first data pulse. The tick count value at an end of the first data pulse is then correlated to a first digital value encoded on the first data pulse.

Abstract: Embodiments related to comparing of a supply voltage are described and depicted.

Abstract: Some embodiments disclosed herein relate to a method. In the method, a duration of a first synchronization pulse is measured. A fixed, predetermined number of ticks are equally spaced at a first time interval over the first sync pulse, regardless of the duration of the first synchronization pulse. A duration of a first data pulse is then measured by periodically incrementing a tick count value at the first time interval during the entire duration of the first data pulse. The tick count value at an end of the first data pulse is then correlated to a first digital value encoded on the first data pulse.

Abstract: A method for monitoring the supply voltage of an electronic device includes the steps of: determining an operating condition of the electronic device, adjusting a plurality of reference voltages dependent on the operating condition of the electronic device, wherein each of the plurality of reference voltages is adjusted at a different time, and comparing the supply voltage of the electronic device with at least one of the plurality of reference voltages.

Abstract: A method for monitoring the supply voltage of an electronic device includes the steps of: determining an operating condition of the electronic device, adjusting a plurality of reference voltages dependent on the operating condition of the electronic device, wherein each of the plurality of reference voltages is adjusted at a different time, and comparing the supply voltage of the electronic device with at least one of the plurality of reference voltages.

Abstract: A method for allocating bus access rights is used in a multimaster bus system wherein addresses are explicitly allocated to master devices and each master device is assigned a priority value from an organized priority list of priority values. Requests from at least one master device to use the bus system to access a slave device are received, and the priority values of all requesting master devices are compared. If a sole requesting master device has the highest priority value access to the respective slave device is granted to that master device. If a plurality of requesting master devices have the same highest priority value access is successively granted to the requesting master devices having the same highest priority value on the basis of the address allocation of the master devices.

Abstract: A programme-controlled unit comprises a crossbar with a multiplicity of ports, a multiplicity of devices which are connected to the ports of the crossbar and can exchange data via the crossbar, and debug resources for detecting the events and states occurring in the programme-controlled unit. The programme-controlled unit described can be characterized by the fact that the ports of the crossbar comprise a diagnostic port, that the addresses, data and/or control signals which are transmitted between two other ports of the crossbar are additionally also supplied to the diagnostic port, and that the debug resources are connected to the diagnostic port of the crossbar.